基于I-V曲线的光伏系统故障高效深度强化学习

YETTOU Tariq , SEGHIOUR Abdellatif , BOUCHETATA Nadir , BENOUZZA Noureddine , MOSTEFAOUI Imene Meriem , RABHI Abdelhamid , Santiago Silvestre , CHOUDER Aissa
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摘要

清洁和可持续的光伏(PV)系统需要监督和监测,以减少能源浪费和提高电力效率。本文提出的技术通过短路和部分遮阳的精确故障检测来提高太阳能的产量。它通过缓解组件和进一步的过早更换来延长光伏系统的使用寿命。此外,自动故障诊断有助于在不同的气候条件下和不同发生的故障下保持稳定的性能,从而最大限度地减少发电机的备用和能量损失。首先,我们引入了一种能够提取和识别光伏电池未知参数的倭黑猩猩优化算法(BOA)来建模我们研究的光伏系统并模拟故障行为。对识别的模型进行验证,然后用于生成I-V和P-V曲线,然后在无监督学习框架内将其馈送到三个自动编码器(AE)以提取其特征。然后,通过堆叠自编码器(SAE)集成强化学习(RL),将环境属性(如太阳辐照度和温度)与电特征结合起来,以提高学习到的特征及其稀疏性。此外,为了使系统能够动态适应新的故障场景和噪声环境,深度强化学习(DRL)通过人工神经网络(ANN)改进了特征表示和分类。该方法以分离和组合的方式对12种选定的故障类型进行识别和分类,该技术已应用于位于阿尔及利亚的光伏电站。分类结果显示出优异的准确性,在训练阶段达到100%,在测试阶段达到99.8%,即使在有噪声的输入条件下也达到97.2%。该研究为提高光伏系统的可靠性和效率提供了有价值的见解,特别是在使用多串光伏逆变器的智能IV诊断方面。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Efficient Deep-Reinforcement Learning for Photovoltaic Systems Under Faults Based on the I-V Curve Approach
Cleaner and sustainable Photovoltaic (PV) systems need to be supervised and monitored to reduce waste energy and improve power efficiency. The proposed technique in this work enhances solar energy production by precise fault detection of short-circuit and partial shading. It extends the PV system lifespan by mitigation component and further premature replacements. Moreover, automatic fault diagnosis helps maintain steady performance in variable climatic conditions and under varying occurred faults that minimize the backup to generators and energy losses. Firstly, we introduce a Bonobo Optimization Algorithm (BOA) that is capable of extracting and identifying the unknown parameters of the PV cell to model our study PV system and to mimic the fault behaviors. The identified model is validated and then used to generate the I-V and P-V curves, which are then fed to three autoencoders (AE) within an unsupervised learning framework to extract their features. Afterward, reinforcement learning (RL) is integrated through a stacked autoencoder (SAE) to combine environmental attributes such as solar irradiance and temperature with electrical features to improve the learned features and their sparsity. Also, to enable the system to adapt dynamically to new fault scenarios and noisy environments, deep-reinforcement learning (DRL) improves feature representation and classification through Artificial Neural Networks (ANN). This methodology provides an identification and categorization of 12 selected fault types in separated and combined ways, where this technique has been applied to a PV plant located in Algeria. The classification results exhibited exceptional accuracy, achieving 100% in the training phase and 99.8% in the testing phase, even amongst noisy input conditions with 97.2%. This study provides valuable insights into improving the reliability and efficiency of PV systems, particularly in the smart IV diagnosis that used multi-string PV inverter.
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